Detection of Individual Differences Encoded in Sequential Variations of Elements in Zebra Finch Songs.

IF 4 2区 医学 Q1 NEUROSCIENCES Journal of Neuroscience Pub Date : 2025-04-02 DOI:10.1523/JNEUROSCI.1071-24.2025
Zhehao Cheng 程柘皓, Yoko Yazaki-Sugiyama 杉山 矢崎 陽子
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Abstract

Zebra finches sing individually unique songs and recognize conspecific songs and individual identities in songs. Their songs comprise several syllables/elements that share acoustic features within the species, with unique sequential arrangements. However, the neuronal mechanisms underlying the detection of individual differences and species specificity have yet to be elucidated. Herein, we examined the neuronal auditory responsiveness of neurons in the higher auditory area, the caudal nidopallium (NCM), to songs and their elements in male zebra finches to understand the mechanism for detecting species and individual identities in zebra finch songs. We found that various adult male zebra finch songs share acoustically similar song elements but differ in their sequential arrangement between individuals. The broader spiking (BS) neurons in the NCM detected only a small subset of zebra finch songs, whereas NCM BS neurons, as a neuronal ensemble, responded to all zebra finch songs. Notably, distinct combinations of BS neurons responded to each of the 18 presented songs in one bird. Subsets of NCM BS neurons were sensitive to sequential arrangements of species-specific elements, which dramatically increasing the capacity for song variation with a limited number of species-specific elements. The naive Bayes decoder analysis further showed that the response of sequence-sensitive BS neurons increased the accuracy of song stimulus predictions based on the response strength of neuronal ensembles. Our results suggest the neuronal mechanisms that NCM neurons as an ensemble decode the individual identities of songs, while each neuron detects a small subset of song elements and their sequential arrangement.

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斑胸草雀鸣叫中元素序列变化的个体差异检测。
斑胸草雀会唱出独特的歌曲,并能识别歌曲中的同类歌曲和个人身份。它们的歌曲包含几个音节/元素,这些音节/元素在物种中具有相同的声学特征,具有独特的顺序排列。然而,检测个体差异和物种特异性的神经元机制尚未阐明。本文研究了雄性斑胸草雀尾侧高听觉区(NCM)神经元对鸣声的听觉响应及其成分,以了解斑胸草雀鸣声中物种和个体身份识别的机制。我们发现各种成年雄性斑胸草雀的鸣叫在声学上具有相似的鸣叫元素,但在个体之间的顺序排列不同。NCM的宽峰神经元只检测到一小部分斑胸草雀的叫声,而NCM BS神经元作为一个神经元集合,对所有斑胸草雀的叫声都有反应。值得注意的是,BS神经元的不同组合对一只鸟的18种歌曲中的每一种都有反应。NCM - BS神经元亚群对物种特异性元素的顺序排列非常敏感,这极大地增加了物种特异性元素数量有限的歌曲变异能力。naïve贝叶斯解码器分析进一步表明,序列敏感的BS神经元的响应提高了基于神经元集合响应强度的歌曲刺激预测的准确性。我们的研究结果表明,NCM神经元作为一个整体解码歌曲的个体身份,而每个神经元检测一小部分歌曲元素及其顺序排列的神经元机制。斑胸草雀通过向导师学习而创作出独特的歌曲。各种斑胸草雀的歌声由重复的物种特定音节元素组成,这些音节元素的顺序排列不同。在体内,来自斑胸草雀高级听觉区(尾侧nidopallium [NCM])神经元的单单元电生理记录显示,每个宽峰(BS) NCM神经元对一小部分斑胸草雀歌曲有反应。然而,一个NCM神经元集合检测了所有的歌曲。在naïve贝叶斯解码器分析中,部分NCM - BS神经元对顺序歌曲元素排列反应敏感,提高了预测精度。这些发现表明,在NCM神经元群中存在一种区分单个歌曲变化的神经元机制,其中每个神经元检测歌曲元素的小子集及其顺序排列。
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来源期刊
Journal of Neuroscience
Journal of Neuroscience 医学-神经科学
CiteScore
9.30
自引率
3.80%
发文量
1164
审稿时长
12 months
期刊介绍: JNeurosci (ISSN 0270-6474) is an official journal of the Society for Neuroscience. It is published weekly by the Society, fifty weeks a year, one volume a year. JNeurosci publishes papers on a broad range of topics of general interest to those working on the nervous system. Authors now have an Open Choice option for their published articles
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